Research on Key Technologies for Analyzing Quantum Computing with Deep Learning

In the global field of computational exploration, quantum computing stands as an enigmatic force, poised to transcend classical limitations in certain tasks. Recent years have borne witness to an unprecedented surge in quantum computing research, fostering a vibrant ecosystem of inquiry and innovation. This study delves into the complex fabric of quantum computing, revealing its evolution from theoretical inception to blooming practical applications. It defines the evolution of quantum computing and paves a roadmap for its potential future through a detailed examination of cutting-edge research initiatives. This study takes readers on a tour through the history of quantum computing, revealing the rich fabric of technological advances and theoretical achievements. From the early stages of quantum hardware creation to the refinement of quantum algorithms and error mitigation measures, the story unfolds with utmost clarity. Furthermore, it deciphers the mysterious mechanics of found quantum algorithms, contrasting their abilities with regular computational paradigms. This paper aims to cast light on a largely untrod territory of interdisciplinary cooperation: the intersection of quantum computing and deep learning. It paves the way to a new generation of computational advantage through the incorporation of quantum rules and deep learning platforms where its application can redefine model enhancement, algorithms formulation and data modeling. Concepts such as quantum neural networks and quantum-enhanced optimization, paint the picture of potentials yet to be imagined inside this mutually beneficial relationship. Moving from conjecture consideration, this paper aims to discuss how quantum computing supports deep learning concretely in numerous application areas. Deep learning utilizing quantum computing has the possibility of transcending the previous boundaries in such areas as image identification, drug design and additional optimization. This investigation maps out the way forward for pragmatic realization by deconstructing existing applications and speculatively constructing new ones. At the end of the voyage, the paper looks forward and presents a roadmap to the next phase of voyaging and inventing. The requirement for a cross-disciplinary approach is then presented, and quantum computing scientists and deep learners are encouraged to collaborate. Through this process of collaboration and creativity the unison of quantum computers with deep learning represents the pursuit of further boundaryless violations as the next step to the advancement of tremendously significant scientific accomplishment in the future.

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Publication Details

Journal
SPIN
Published
2024-10-23
DOI
https://doi.org/10.1142/s2010324724400083
Primary Topic
Computational Physics and Python Applications
Type
article
Field-Weighted Citation Impact
0.00
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article

Research on Key Technologies for Analyzing Quantum Computing with Deep Learning

Kaifeng Deng, Lei Shi, Chengyan He, Keyu Chen et al.
SPIN
Computational Physics and Python Applications
article

Research on Key Technologies for Analyzing Quantum Computing with Deep Learning

Kaifeng Deng, Lei Shi, Chengyan He, Keyu Chen, Yongrui Yu
article en

Abstract

In the global field of computational exploration, quantum computing stands as an enigmatic force, poised to transcend classical limitations in certain tasks. Recent years have borne witness to an unprecedented surge in quantum computing research, fostering a vibrant ecosystem of inquiry and innovation. This study delves into the complex fabric of quantum computing, revealing its evolution from theoretical inception to blooming practical applications. It defines the evolution of quantum computing and paves a roadmap for its potential future through a detailed examination of cutting-edge research initiatives. This study takes readers on a tour through the history of quantum computing, revealing the rich fabric of technological advances and theoretical achievements. From the early stages of quantum hardware creation to the refinement of quantum algorithms and error mitigation measures, the story unfolds with utmost clarity. Furthermore, it deciphers the mysterious mechanics of found quantum algorithms, contrasting their abilities with regular computational paradigms. This paper aims to cast light on a largely untrod territory of interdisciplinary cooperation: the intersection of quantum computing and deep learning. It paves the way to a new generation of computational advantage through the incorporation of quantum rules and deep learning platforms where its application can redefine model enhancement, algorithms formulation and data modeling. Concepts such as quantum neural networks and quantum-enhanced optimization, paint the picture of potentials yet to be imagined inside this mutually beneficial relationship. Moving from conjecture consideration, this paper aims to discuss how quantum computing supports deep learning concretely in numerous application areas. Deep learning utilizing quantum computing has the possibility of transcending the previous boundaries in such areas as image identification, drug design and additional optimization. This investigation maps out the way forward for pragmatic realization by deconstructing existing applications and speculatively constructing new ones. At the end of the voyage, the paper looks forward and presents a roadmap to the next phase of voyaging and inventing. The requirement for a cross-disciplinary approach is then presented, and quantum computing scientists and deep learners are encouraged to collaborate. Through this process of collaboration and creativity the unison of quantum computers with deep learning represents the pursuit of further boundaryless violations as the next step to the advancement of tremendously significant scientific accomplishment in the future.

SPINVol. 15(02)
Guizhou Electric Power Design and Research Institute (CN)
Openalex Percentile: Top 84%
Computational Physics and Python Applications
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